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This concern applies to gNMI mutual TLS authentication in a different scenario where operators need to restrict streaming telemetry to approved mutually authenticated collectors. For the deployed gNMI model path targeting approach, the relevant caution is instead that data-model revisions may change paths and translation requirements.

This concern applies to RESTCONF management endpoint selection in a different scenario where operators need to read YANG-modeled configuration from a device using an authenticated HTTPS client. For the deployed gNMI model path targeting approach, the relevant caution is instead that data-model revisions may change paths and translation requirements.

This concern applies to YANG operational versus config state in a different scenario where operators need to separate a read-only interface counter from an editable interface configuration leaf. For the deployed gNMI model path targeting approach, the relevant caution is instead that data-model revisions may change paths and translation requirements.

sampled NetFlow capacity instead addresses a different condition: reduce accounting overhead on a high-rate provider interface. It would instead require you to configure supported sampled NetFlow with a documented sampling rate, not the stated goal to allow collectors to interpret variable flow record fields correctly.

secure ZTP server authenticity instead addresses a different condition: prevent a newly booted router from accepting malicious provisioning instructions. It would instead require you to verify the bootstrap server and signed onboarding data before configuration, not the stated goal to allow collectors to interpret variable flow record fields correctly.

Ansible declarative desired configuration instead addresses a different condition: apply a repeated standardized configuration across a provider router fleet. It would instead require you to use an idempotent Ansible playbook with platform-appropriate modules and diff checks, not the stated goal to allow collectors to interpret variable flow record fields correctly.

The proposed step is for sampled NetFlow capacity, whose purpose is to reduce accounting overhead on a high-rate provider interface. It would not perform the necessary IPFIX template metadata operation: export matching IPFIX templates before or with the associated data records.

The proposed step is for secure ZTP server authenticity, whose purpose is to prevent a newly booted router from accepting malicious provisioning instructions. It would not perform the necessary IPFIX template metadata operation: export matching IPFIX templates before or with the associated data records.

The proposed step is for Ansible declarative desired configuration, whose purpose is to apply a repeated standardized configuration across a provider router fleet. It would not perform the necessary IPFIX template metadata operation: export matching IPFIX templates before or with the associated data records.

The observation would verify sampled NetFlow capacity under the separate requirement to reduce accounting overhead on a high-rate provider interface. It does not demonstrate the needed IPFIX template metadata result: the collector decodes flow fields by template ID and observation domain.

The observation would verify secure ZTP server authenticity under the separate requirement to prevent a newly booted router from accepting malicious provisioning instructions. It does not demonstrate the needed IPFIX template metadata result: the collector decodes flow fields by template ID and observation domain.

The observation would verify Ansible declarative desired configuration under the separate requirement to apply a repeated standardized configuration across a provider router fleet. It does not demonstrate the needed IPFIX template metadata result: the collector decodes flow fields by template ID and observation domain.

This defect belongs to sampled NetFlow capacity, where the affected outcome is to reduce accounting overhead on a high-rate provider interface. It is not the direct failure mode identified for the IPFIX template metadata design in this case: data records arrive without a usable template and appear undecodable.

This defect belongs to secure ZTP server authenticity, where the affected outcome is to prevent a newly booted router from accepting malicious provisioning instructions. It is not the direct failure mode identified for the IPFIX template metadata design in this case: data records arrive without a usable template and appear undecodable.

This defect belongs to Ansible declarative desired configuration, where the affected outcome is to apply a repeated standardized configuration across a provider router fleet. It is not the direct failure mode identified for the IPFIX template metadata design in this case: data records arrive without a usable template and appear undecodable.

This concern applies to sampled NetFlow capacity in a different scenario where operators need to reduce accounting overhead on a high-rate provider interface. For the deployed IPFIX template metadata approach, the relevant caution is instead that template refresh and collector restart handling must be planned.

This concern applies to secure ZTP server authenticity in a different scenario where operators need to prevent a newly booted router from accepting malicious provisioning instructions. For the deployed IPFIX template metadata approach, the relevant caution is instead that template refresh and collector restart handling must be planned.

This concern applies to Ansible declarative desired configuration in a different scenario where operators need to apply a repeated standardized configuration across a provider router fleet. For the deployed IPFIX template metadata approach, the relevant caution is instead that template refresh and collector restart handling must be planned.

IPFIX template metadata instead addresses a different condition: allow collectors to interpret variable flow record fields correctly. It would instead require you to export matching IPFIX templates before or with the associated data records, not the stated goal to repair an IOS XR NetFlow exporter that remains disabled because its source interface is missing.

NETCONF interface edit scope instead addresses a different condition: change only a specified modelled interface parameter using the device's NETCONF service. It would instead require you to send an edit-config operation scoped to the correct YANG data path, not the stated goal to repair an IOS XR NetFlow exporter that remains disabled because its source interface is missing.

secure ZTP server authenticity instead addresses a different condition: prevent a newly booted router from accepting malicious provisioning instructions. It would instead require you to verify the bootstrap server and signed onboarding data before configuration, not the stated goal to repair an IOS XR NetFlow exporter that remains disabled because its source interface is missing.

The proposed step is for IPFIX template metadata, whose purpose is to allow collectors to interpret variable flow record fields correctly. It would not perform the necessary NetFlow exporter source interface operation: configure a valid source interface in the exporter map and apply the monitor.

The proposed step is for NETCONF interface edit scope, whose purpose is to change only a specified modelled interface parameter using the device's NETCONF service. It would not perform the necessary NetFlow exporter source interface operation: configure a valid source interface in the exporter map and apply the monitor.

The proposed step is for secure ZTP server authenticity, whose purpose is to prevent a newly booted router from accepting malicious provisioning instructions. It would not perform the necessary NetFlow exporter source interface operation: configure a valid source interface in the exporter map and apply the monitor.

The observation would verify IPFIX template metadata under the separate requirement to allow collectors to interpret variable flow record fields correctly. It does not demonstrate the needed NetFlow exporter source interface result: flow UDP datagrams reach the intended collector with valid export source.

The observation would verify NETCONF interface edit scope under the separate requirement to change only a specified modelled interface parameter using the device's NETCONF service. It does not demonstrate the needed NetFlow exporter source interface result: flow UDP datagrams reach the intended collector with valid export source.

The observation would verify secure ZTP server authenticity under the separate requirement to prevent a newly booted router from accepting malicious provisioning instructions. It does not demonstrate the needed NetFlow exporter source interface result: flow UDP datagrams reach the intended collector with valid export source.

This defect belongs to IPFIX template metadata, where the affected outcome is to allow collectors to interpret variable flow record fields correctly. It is not the direct failure mode identified for the NetFlow exporter source interface design in this case: an exporter destination is present but no exporter source interface is defined.

This defect belongs to NETCONF interface edit scope, where the affected outcome is to change only a specified modelled interface parameter using the device's NETCONF service. It is not the direct failure mode identified for the NetFlow exporter source interface design in this case: an exporter destination is present but no exporter source interface is defined.

This defect belongs to secure ZTP server authenticity, where the affected outcome is to prevent a newly booted router from accepting malicious provisioning instructions. It is not the direct failure mode identified for the NetFlow exporter source interface design in this case: an exporter destination is present but no exporter source interface is defined.

This concern applies to IPFIX template metadata in a different scenario where operators need to allow collectors to interpret variable flow record fields correctly. For the deployed NetFlow exporter source interface approach, the relevant caution is instead that do not use an unsupported management interface for packet export.

This concern applies to NETCONF interface edit scope in a different scenario where operators need to change only a specified modelled interface parameter using the device's NETCONF service. For the deployed NetFlow exporter source interface approach, the relevant caution is instead that do not use an unsupported management interface for packet export.

This concern applies to secure ZTP server authenticity in a different scenario where operators need to prevent a newly booted router from accepting malicious provisioning instructions. For the deployed NetFlow exporter source interface approach, the relevant caution is instead that do not use an unsupported management interface for packet export.